Lateral performance of cold-formed steel-framed domestic structures

被引:85
|
作者
Gad, EF [1 ]
Duffield, CF
Hutchinson, GL
Mansell, DS
Stark, G
机构
[1] Univ Melbourne, Dept Civil & Environm Engn, Parkville, Vic 3052, Australia
[2] BHP Steel, BHP Res, Port Kembla Labs, Port Kembla, NSW 2505, Australia
基金
澳大利亚研究理事会;
关键词
seismic response; steel domestic structures; wall frames; plasterboard;
D O I
10.1016/S0141-0296(97)90129-2
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
This paper presents key outcomes of an investigation in the performance of domestic structures with cold formed steel frames. The primary objective of this research project was to assess the performance and behaviour of these structures when subjected to earthquake loading. The research involved an extensive racking and dynamic testing program on both two- and three-dimensional framing configurations. A variety of construction details was tested to identify the critical components and assess the contributions from the non-structural components, particularly the plasterboard lining. It is concluded that the steel frames perform very well under earthquake loads. Non-structural components, such as plasterboard lining, make a significant contribution to the lateral bracing of the frames. The failure mechanisms and the load sharing between the various components are also identified and discussed. (C) 1998 Elsevier Science Ltd. All rights reserved.
引用
收藏
页码:83 / 95
页数:13
相关论文
共 50 条
  • [31] Structural performance of cold-formed steel structures with bolted connections
    Chung, KF
    ADVANCES IN STRUCTURAL ENGINEERING, 2005, 8 (03) : 231 - 245
  • [32] Cold-formed steel framed shear wall test database
    Zhang, Zhidong
    Eladly, Mohammed M.
    Rogers, Colin A.
    Schafer, Benjamin W.
    EARTHQUAKE SPECTRA, 2024, 40 (01) : 871 - 884
  • [33] Numerical investigation into the performance of cold-formed steel framed shear walls with openings under in-plane lateral loads
    Kechidi, Smail
    Iuorio, Ornella
    THIN-WALLED STRUCTURES, 2022, 175
  • [34] Seismic Response and Engineering of Cold-formed Steel Framed Buildings
    Schafer, B. W.
    Ayhan, D.
    Leng, J.
    Liu, P.
    Padilla-Llano, D.
    Peterman, K. D.
    Stehman, M.
    Buonopane, S. G.
    Eatherton, M.
    Madsen, R.
    Manley, B.
    Moen, C. D.
    Nakata, N.
    Rogers, C.
    Yu, C.
    STRUCTURES, 2016, 8 : 197 - 212
  • [35] Practice-oriented numerical model for seismic response of cold-formed steel-framed mid-rise buildings
    Singh, Amanpreet
    Zhang, Zhidong
    Wang, Xiang
    Schafer, Benjamin W.
    Hutchinson, Tara C.
    ENGINEERING STRUCTURES, 2024, 319
  • [36] Investigation of the effect of modular construction details on the lateral behaviour of cold-formed steel framed shear walls
    Kechidi, Smail
    Iuorio, Ornella
    ENGINEERING STRUCTURES, 2022, 268
  • [37] Earthquake and Postearthquake Fire Testing of a Midrise Cold-Formed Steel-Framed Building. I: Building Response and Physical Damage
    Hutchinson, Tara C.
    Wang, Xiang
    Hegemier, Gilbert
    Kamath, Praveen
    Meacham, Brian
    JOURNAL OF STRUCTURAL ENGINEERING, 2021, 147 (09)
  • [38] Cold-formed steel structures: Special issue
    Schafer, BW
    JOURNAL OF STRUCTURAL ENGINEERING-ASCE, 2006, 132 (04): : 495 - 496
  • [39] Incremental dynamic analysis and FEMA P695 seismic performance evaluation of a cold-formed steel-framed building with gravity framing and architectural sheathing
    Leng, Jiazhen
    Buonopane, Stephen G.
    Schafer, Benjamin W.
    EARTHQUAKE ENGINEERING & STRUCTURAL DYNAMICS, 2020, 49 (04): : 394 - 412
  • [40] Blast Testing of a Cold-Formed Steel-Framed Building with a Roof Truss System: II. Component-Level Response
    Whelan, Matthew J.
    Weggel, David C.
    Moss, Jonathan
    Rahman, Nabil
    Khalil, Ahmed
    JOURNAL OF STRUCTURAL ENGINEERING, 2025, 151 (02)